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US1112844A - Rotary internal-combustion engine. - Google Patents

Rotary internal-combustion engine. Download PDF

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Publication number
US1112844A
US1112844A US80090713A US1913800907A US1112844A US 1112844 A US1112844 A US 1112844A US 80090713 A US80090713 A US 80090713A US 1913800907 A US1913800907 A US 1913800907A US 1112844 A US1112844 A US 1112844A
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cylinder
pressure
reservoir
valve
combustion engine
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US80090713A
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John Schnitter
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    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F02COMBUSTION ENGINES; HOT-GAS OR COMBUSTION-PRODUCT ENGINE PLANTS
    • F02GHOT GAS OR COMBUSTION-PRODUCT POSITIVE-DISPLACEMENT ENGINE PLANTS; USE OF WASTE HEAT OF COMBUSTION ENGINES; NOT OTHERWISE PROVIDED FOR
    • F02G3/00Combustion-product positive-displacement engine plants
    • F02G3/02Combustion-product positive-displacement engine plants with reciprocating-piston engines

Definitions

  • This invention relates to rotary internalcombustion 'engines,and its object is to provide novel and improved means for operating the same, a series of pressure-generating chambers being provided which are removed from the rotor and the inclosing casing of the same, said chambers discharg ing into a reservoir which is connected to the casing of the rotor to discharge thereinto.
  • a further object of the invention is to provide a novel and improved form of rotor, the same being constructed to develop a maximum amount of power.
  • Figure 1 is an elevationfof the engine; Fig. 2 is a central longitudinal section thereof and Fig. 3 is a vertical section on the line 33 of Fig. l. 1
  • 5 denotes a cylinder which incloses a rotor comprising a shaft or central body 6 carrying a helical vane 7, which latter extends throughout the en'- tire length of the shaft inside the cylinder.
  • the vane projects radiallyfrom the shaft a distance to bring its edge in contact with the cylinder wall.
  • the motive fluid is discharged into one end of the cylinder, and exhaust takes place from the opposite end thereof.
  • the flow is axial, or parallel to the shaft, and the impact or pressure against the vane rotates the same and the shaft.
  • the vane is dished in a plane perpendicular to the shaft, the concavity thus formed facing the inlet end of the cylinder. This shape of the vane gives a better propulsive efi'ect.
  • the ends of the cylinder5 are provided with stuffing boxes 8,-through which latter the shaft 6 passes, and adjacent to each end the following is a specificaconnected diametrically opposite of the cylinder, on the outside'thereof, are bearings 9 in which the'shaft is supported, said bearings being mounted on a suitable base 10, which latter also supports the cylin er.
  • Associated with the engine is a series of pressure-generating chambers 11 which are removed from the c'linder 5.
  • a charge of liquid fuel is periodically sprayed into the chambers and explodedK-therein.
  • the expanding pro-ducts, under' high pressure, are carried to the cylinder and discharged thereinto against the vane 7'.
  • the chambers may be cylindrical in shape, and they are mount-.
  • Each chamber 11 has an outlet port 13 into the reservoir' '12, said port being controlled by a valve 14 which opens into the reservoir, .and is held normally seated by a spring 15 coiled around the valve stem 16, between a guidesleeve 17 and an abutment 18 on the valve stem.
  • the valve stem passes through the sleeve lflthe latter being carried by a cross bar'19'in the cha n ber 11.
  • each chamber 11 In thetop of each chamber 11 is I 24 having aport 25 which opens into "said chamber. Liquid fuel is sprayed into the chamber through this port, the admission being controlled by a valve 26, which latter may be an ordinary puppet valve heldclosed by a spring 27, and periodically forced open by a lever-28, one end: of which lever, engages the stem 29 of the valve.- T he other end of thelever is engaged by a' slide rod 3O operated by a cam 31 on a shaft 32 geared to the shaft 6.
  • Each conduit 24 has an air inlet 33 connected'to-the' discharge pipe, 34 of an' air pump 35, whichlatter may be an ordinary centrifugal blower driven from the shaft 6 by being belted or otherwise operatively connected thereto, as indicated at 36.
  • each conduit 24 Into each conduit 24 extends a fuelnozzle 37 connected to a duct 38 in the wall of the conduit.
  • a needle valve 40 is provided for regulating the area of the nozzle outlet. The nozzle is located between the a cami; on the shaft 32.
  • valve 26 In operation, when the valve 26 opens, air s caused to mouth of the nozzle 37, whereby an atomizing action is produced, and the liquid fuel is blown into'a fine spray, in which form it is admitted into the chamber 11, and ignited therein by the device il. As the explosion takes place in the chamber 11, the valve 14- is blown open, and the expanding products under high pressure enter the reservoir 12, from which latter they pass, bythe way of the conduit EZOand its branches 21 into the cylinder 5, and by their impact against the vane 7 rotate the same and its shaft 6.
  • FIG. 1 shows six pressure-generating chambers 11, in view of which a suiiicient volume of expanding products is discharged into the reservoir 1am insure asteady drive of the engine.
  • the driving connection between the shafts 6 and 32 is made by a gear 44 on the former meshing with a gear 4 5 on a countershaft e6, on which latter is a pinion 47 which is in mesh with a gear 48 on a second countershaft 4C9, the gear 48 being in mesh with a gear 50 on the shaft 32.
  • the cylinder 5, the reservoir 12 and the chambers 11 will all be Waterjacketed as shown in Fig. 2.
  • the structure herein described produces a simple, powerful and steady-running engine, and one which can be cheaply operated,
  • the helicalrotor is not limited to internal-combustion engines, but
  • a cylinder comprising a cylinder, a reservoir, and a series of pressure-generating chambers arranged in superposed relation and connected together to form a compact structure, a rotor in said cylinder, an outlet from said reser voir connected to said cylinder, an outlet port for each pressure-generating chamber and an outwardly opening pressure operated valve for each port and adapted to open into said reservoir, and means for blowing a spray of liquid fuel in said pressure-gown ating chambers through the medium of air at high pressure.

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  • Engineering & Computer Science (AREA)
  • Chemical & Material Sciences (AREA)
  • Combustion & Propulsion (AREA)
  • Mechanical Engineering (AREA)
  • General Engineering & Computer Science (AREA)
  • Fuel-Injection Apparatus (AREA)

Description

J. SGHNITTER. ROTARYCINTERNAL COMBUSTION ENGINE.
APPLIOATION FILED NOV. 14, 1913.
Patented Oct. 6, 1914.
v w w W J. SCHNI'I'TER.
ROTARY INTERNAL COMBUSTION ENGINE.
APPLICATION FILEDNOV.14,1U3.
1 1 1 ,844 Patented Oct. 6, 1914.
2 SHEETS-SHBET 2.
fig ,2,
sail/4Q II/I/I/ To all whom it may concern JOHN SCHNITTER, ;0F BALTIMORE, MARYLAND.
ROTARY INTERNAL-C OMBUSTION ENGINE.
Specification of Letters Patent.
Patented Oct. 6, 1914.
Application filed November 14, 1913. Serial No. 800,907.
Beit known that 1, JOHN SOHNITTER, a citizen of the United States, residing at Baltimore city, State of Maryland, have invented certain newv and useful Improvements in Rotary Internal-Combustion Engines, of which tion.
. This invention relates to rotary internalcombustion 'engines,and its object is to provide novel and improved means for operating the same, a series of pressure-generating chambers being provided which are removed from the rotor and the inclosing casing of the same, said chambers discharg ing into a reservoir which is connected to the casing of the rotor to discharge thereinto.
'Theinvention also, has for its object to provide a novel and improved: arrangement of pressure-generating chambers, and means for introducing an explosive mixture there- A further object of the invention is to provide a novel and improved form of rotor, the same being constructed to develop a maximum amount of power.
These objects are attained by the-combination and arrangement of parts to be hereinafter described and claimed, reference be-' ing had tothe accompanying drawings, in
which Figure 1 is an elevationfof the engine; Fig. 2 is a central longitudinal section thereof and Fig. 3 is a vertical section on the line 33 of Fig. l. 1
In 'the drawings, 5 denotes a cylinder which incloses a rotor comprising a shaft or central body 6 carrying a helical vane 7, which latter extends throughout the en'- tire length of the shaft inside the cylinder. The vane projects radiallyfrom the shaft a distance to bring its edge in contact with the cylinder wall. The motive fluid is discharged into one end of the cylinder, and exhaust takes place from the opposite end thereof. The flow is axial, or parallel to the shaft, and the impact or pressure against the vane rotates the same and the shaft. The vane is dished in a plane perpendicular to the shaft, the concavity thus formed facing the inlet end of the cylinder. This shape of the vane gives a better propulsive efi'ect.
The ends of the cylinder5 are provided with stuffing boxes 8,-through which latter the shaft 6 passes, and adjacent to each end the following is a specificaconnected diametrically opposite of the cylinder, on the outside'thereof, are bearings 9 in which the'shaft is supported, said bearings being mounted on a suitable base 10, which latter also supports the cylin er.
Associated with the engine is a series of pressure-generating chambers 11 which are removed from the c'linder 5. A charge of liquid fuel is periodically sprayed into the chambers and explodedK-therein. The expanding pro-ducts, under' high pressure, are carried to the cylinder and discharged thereinto against the vane 7'. The chambers may be cylindrical in shape, and they are mount-.
ed in a row on a reservoir 12,which latter, in turn, is mountedon top* of the cylinder 5. Thus'acom'pact structure is had, and the space occupied by the engine is reduced to a minimum. Each chamber 11 has an outlet port 13 into the reservoir' '12, said port being controlled by a valve 14 which opens into the reservoir, .and is held normally seated by a spring 15 coiled around the valve stem 16, between a guidesleeve 17 and an abutment 18 on the valve stem. The valve stem passes through the sleeve lflthe latter being carried by a cross bar'19'in the cha n ber 11. From the reservoir leadsa pipe:or conduit 20 having branches 21-, which latter are connected, at diametrically opposite points,-to' the inlet end of the' cylinder I5 to discharge thereinto. The pipe has in valve To the outlet end'of the cylinder'are pipes 23.
In thetop of each chamber 11 is I 24 having aport 25 which opens into "said chamber. Liquid fuel is sprayed into the chamber through this port, the admission being controlled by a valve 26, which latter may be an ordinary puppet valve heldclosed by a spring 27, and periodically forced open by a lever-28, one end: of which lever, engages the stem 29 of the valve.- T he other end of thelever is engaged by a' slide rod 3O operated by a cam 31 on a shaft 32 geared to the shaft 6. Each conduit 24: has an air inlet 33 connected'to-the' discharge pipe, 34 of an' air pump 35, whichlatter may be an ordinary centrifugal blower driven from the shaft 6 by being belted or otherwise operatively connected thereto, as indicated at 36.
Into each conduit 24 extends a fuelnozzle 37 connected to a duct 38 in the wall of the conduit. A pipe 39, leading from a suitable source of liquid fuel (not shown), is connected to the duct. A needle valve 40 is provided for regulating the area of the nozzle outlet. The nozzle is located between the a cami; on the shaft 32.
In operation, when the valve 26 opens, air s caused to mouth of the nozzle 37, whereby an atomizing action is produced, and the liquid fuel is blown into'a fine spray, in which form it is admitted into the chamber 11, and ignited therein by the device il. As the explosion takes place in the chamber 11, the valve 14- is blown open, and the expanding products under high pressure enter the reservoir 12, from which latter they pass, bythe way of the conduit EZOand its branches 21 into the cylinder 5, and by their impact against the vane 7 rotate the same and its shaft 6. The
drawings show six pressure-generating chambers 11, in view of which a suiiicient volume of expanding products is discharged into the reservoir 1am insure asteady drive of the engine. j i
The driving connection between the shafts 6 and 32 is made by a gear 44 on the former meshing with a gear 4 5 on a countershaft e6, on which latter is a pinion 47 which is in mesh with a gear 48 on a second countershaft 4C9, the gear 48 being in mesh with a gear 50 on the shaft 32. i
The cylinder 5, the reservoir 12 and the chambers 11 will all be Waterjacketed as shown in Fig. 2. The structure herein described produces a simple, powerful and steady-running engine, and one which can be cheaply operated,
it being designed more particularly for using.
a cheap grade of oil, although gasolene or other liquid hydrocarbons may be employed with good results. The helicalrotor is not limited to internal-combustion engines, but
may be applied to steam or otherfluid-pressure motors.
' While the preferred form of the invention has been shown and described, it is to be understood that many changes in the structural details may be made without departure from the spirit and scope of the invention claimed hereinafter.
1 claim: I 1. A rotary internal combustion engine,
flow at high velocity past the 1,112,saa
comprising a cylinder, a reservoir, and a. series of pressure generating chambers, a rotor-in said cylinder, an outlet port for each pressure generating chamber and an outwardly opening pressure valve for each port which opens into said reservoir, an air conduit for each generating chamber, a mechanically operated valve between said conduit and chamber, means for supplying air to said conduit under pressure, and a liquid fuel nozzle in said air conduit, whereby when the valve between the air conduit and gen erating chamber is opened, the liquid fuel will be blown and sprayed into. said generating chamber by the airpassing through the conduit at a high velocity.
2. A rotary internal combustion engine,
comprising a cylinder, a reservoir, and a series of pressure-generating chambers arranged in superposed relation and connected together to form a compact structure, a rotor in said cylinder, an outlet from said reser voir connected to said cylinder, an outlet port for each pressure-generating chamber and an outwardly opening pressure operated valve for each port and adapted to open into said reservoir, and means for blowing a spray of liquid fuel in said pressure-gown ating chambers through the medium of air at high pressure.
3. A rotary internal combustion engine,
comrisin a c linder a reservoir and a b series of pressure-generating chambers arranged in superposed relation and connected together to form a compact structure, a rotor in said cylinder, an outlet from said reservoir connected to said cylinder, an outlet port for each pressure-generating chamber and an outwardly opening pressure operated .valve for each port and adapted to open into said reservoir, and means for blowing a spray of liquid fuel in said pressure generat ing chambers, said fuel blowingjmeans embodying a conduit for each generating chamber, an air pump connected to all of said 'conduits,1and a. fuel nozzle in each conduit between said chambers and pump, whereby the air is blown at a high velocity over said fuel nozzle to said chambers.
In testimony whereof I affix my signature in presence of two witnesses.
JOHN SCHNITTER.
Witnesses:
' HOWARD D. ADAMs,
E. WALTON Banwmoron.
US80090713A 1913-11-14 1913-11-14 Rotary internal-combustion engine. Expired - Lifetime US1112844A (en)

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Cited By (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US3867812A (en) * 1972-05-11 1975-02-25 Arsdel Thomas P Van Gas motor power system
US3992877A (en) * 1975-03-10 1976-11-23 Granger Charles C Combustion gas pressure generator
US4312629A (en) * 1980-08-22 1982-01-26 General Supply (Constructions) Co. Ltd. Universal rotating machine for expanding or compressing a compressible fluid
US4321897A (en) * 1980-08-22 1982-03-30 General Supply (Constructions) Co. Ltd. Internal combustion engine
US4432314A (en) * 1980-08-22 1984-02-21 General Supply (Construction) Co., Ltd. Internal combustion engine

Cited By (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US3867812A (en) * 1972-05-11 1975-02-25 Arsdel Thomas P Van Gas motor power system
US3992877A (en) * 1975-03-10 1976-11-23 Granger Charles C Combustion gas pressure generator
US4312629A (en) * 1980-08-22 1982-01-26 General Supply (Constructions) Co. Ltd. Universal rotating machine for expanding or compressing a compressible fluid
US4321897A (en) * 1980-08-22 1982-03-30 General Supply (Constructions) Co. Ltd. Internal combustion engine
US4432314A (en) * 1980-08-22 1984-02-21 General Supply (Construction) Co., Ltd. Internal combustion engine

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